Scalable Microcavity-Enhanced Raman Scattering Platform for Multigas Chemical Analysis

Competitive Advantages

  •     Ultra-high sensitivity and specificity
  •     Low-cost, durable and compact structure
  •     GHz range spectral resolution without requiring spatial beam propagation, frequency stabilization, or spectroscopic equipment

Summary

USF inventors have developed an accurate integrated chemical sensing platform to meet this long-standing, yet unfulfilled need. Resonant micro-cavity technology is used to significantly enhance chosen chemical fingerprint signals (coherent anti-Stokes Raman scattering (CARS)) from an ensemble of trace chemicals in a fluid. The detection techniques are also extended from single–gas sensor to dual–gas sensor based on an enhanced spontaneous dual emission as a result of cavity quantum electrodynamic effects. This ultra-high sensitive chemical sensor can be used in chemical, pharmaceutical, defense, food, and beverage industries for quality control purposes. Its compactness allows integration into portable electronic devices such as cell phones and durability makes it suitable for space missions where chemical sensors are in a great need for biomedical experimentation, the monitoring of water, and air recycling processes. 

Cross-Sectional View of Developed Detection Array 

Desired Partnerships

  • License
  • Sponsored Research
  • Co-Development

 

Patent Information:
Title App Type Country Serial No. Patent No. File Date Issued Date Expire Date
Horizontally-Scalable Microcavity-Enhanced Raman Scattering Integrated Platform for Multigas Chemical Analysis Utility United States 15/065,438 10,401,296 3/9/2016 9/3/2019 7/5/2038